A finite-element procedure is developed for solving three-dimensional non-steady problems of deformation and fracture of brickwork reinforced by composite plates, including rigid and soft layers.
BaylotJ. T.BullockB.SlawsonT. R., and WoodsonS. C., Blast response of lightly attached concrete masonry unit walls. Journal of Structural Engineering-Asce, 131(8), 2005, 1186–1193.
2.
MuszynskiL. C., and PurcellM. R., Use of composite reinforcement to strengthen concrete and air-entrained concrete masonry walls against air blast, Journal of Composites for Construction, 7(2), 2003, 98–108.
3.
DavidsonJ. S.FisherJ. W.HammonsM. I.PorterJ. R., and DinanR. J., Failure mechanisms of polymer-reinforced concrete masonry walls subjected to blast, Journal of Structural Engineering-ASCE, 131(8), 2005, 1194–1205.
4.
DavidsonJ. S.PorterJ. R.DinanR. J.HammonsM. I., and ConnellJ. D., Explosive testing of polymer retrofit masonry walls, Journal of Performance of Constructed Facilities, 18(2), 2004, 100–106.
5.
WardS. P., Retrofitting existing masonry buildings to resist explosions, Journal of Performance of Constructed Facilities. 18(2), 2004, 95–99
6.
BuchanP. A., and ChenJ. F., Blast resistance of FRP composites and polymer strengthened concrete and masonry structures – A state-of-the-art review, Composites Part B-Engineering. 38(5–6), 2007, 509–522.
7.
SchenkerA.AntebyI.NizriE.OstraichB.KivityY.SadotO.HahamO.MichaelisR.GalE., and Ben-DorG., Foam-protected reinforced concrete structures under impact: Experimental and numerical studies, Journal of Structural Engineering-ASCE. 131(8), 2005, 1233–1242.
8.
SchenkerA.AntebyI.GalE.KivityY.NizriE.SadotO.MichaelisR.LevintantO., and Ben-DorG., Full-scale field tests of concrete slabs subjected to blast loads, International Journal of Impact Engineering, 35(3), 2008, 184–198.
MaG.HaoH., and LuY., Homogenization of Masonry using numerical simulations, Journal of Engineering Mechanics, 127(5), 2001, 421–431.
11.
AnthoineA., Derivation of the in-plane elastic characteristics of masonry through homogenization theory, International Journal of Solids and Structures, 32(2), 1995, 137–163.
12.
CecchiA., and Di MarcoR., Homogenized strategy toward constitutive identification of masonry, Journal of Engineering Mechanics-ASCE, 128(6), 2002, 688–697.
13.
ElGawadyM. A.LestuzziP., and BadouxM., Analytical model for the in-plane shear behavior of URM walls retrofitted with FRP, Composites Science and Technology, 66(3–4), 2006, 459–474.
14.
LuccioniB. M.AmbrosiniR. D., and DanesiR. F., Analysis of building collapse under blast loads, Engineering Structures, 26(1), 2004, 63–71.
15.
MilaniG.LourencoP. B., and TralliA., Homogenised limit analysis of masonry walls, Part I: Failure surfaces, Computers and Structures, 84(3–4), 2006, 166–180.
16.
MilaniG.LourencoP. B., and TralliA., Homogenised limit analysis of masonry walls, Part II: Structural examples, Computers and Structures, 84(3–4), 2006, 181–195.
17.
WuC. Q., and HaH., Derivation of 3D masonry properties using numerical homogenization technique, International Journal for Numerical Methods in Engineering, 66(11), 2006, 1717–1737.
18.
ZucchiniA., and LourencoP. B., A coupled homogenisation-damage model for masonry cracking, Computers and Structures, 82(11–12), 2004, 917–929.
19.
LucianoR., and SaccoE., Homogenization technique and damage model for old masonry material, International Journal of Solids and Structures, 34(24), 1997, 3191–3208.
20.
BazhenovV.G.GordienkoA.V.ZefirovS.V.KibetsA.I.KruszkaL., Modeling deformation and failure of structures made of piecewise-homogeneous materials with regular structure subject to explosive loading, Mathematical Modeling, 2006, 8 (18), 86–92 (in Russian).
21.
WuC. Q., and HaoH., Safe scaled distance for masonry infilled RC frame structures subjected to airblast loads, Journal of Performance of Constructed Facilities, 21(6), 2007, 422–431.
22.
BelytschkoT.LiuW.K.MoranB., Nonlinear finite elements for continua and structures, John Wiley & Sons, New York, 2000, 600.
23.
BatheK.-Y., Finite element procedures. – New Jersey: Upper Saddle River «Prentice Hall», 1996, 1037.
24.
HillR., The Mathematical Theory of Plasticity, Oxford University Press, Oxford, 1983.
25.
BazhenovV.G.KibetsA.I.TsvetkovaI.N., Numerically modeling nonstationary processes of impact interaction of deformable structural elements, Problems of Engineering and Safety of Machines, 2, 1995, 20–26 (in Russian).
26.
ArtemyevaA.A.BazhenovV.G.KibetzA.I.LaptevP.V.ShoshinD.V., Verification of the finite-element analysis of 3-d non-stationary problems of elasto-plastic deformation, stability and supercritical behaviour of shells, Computational continuum mechanics, 3(2), 2010, 5–14 (in Russian).
27.
Certificate of Compliance of Gosstandart of Russia No POCC RU.ME.20. HOO338.
28.
BazhenovV.G.GerdyukovN.N.GordienkoA.V.DudnikA.V.KibetsA.I.KruszkaL., A Computational-Experimental Method for Analyzing the Deformational and Strength Properties of Masonry Subject to Explosive Loading, Problems of Strength and Plasticity: Higher School Collection, Nizhni Novgorod University Press, Nizhni Novgorod, 70, 2008, 141–146 (in Russian).
29.
BazhenovV.G.ZefirovS.V.KoryukinD.B., Deformation and Failure of Brickwork under Explosive Loading, Applied Problems of Strength and Plasticity. Numerically Modeling Physical-Mechanical Processes: Interuniversity Collection, TNI KMK, Moscow, 60, 1999, 19–25 (in Russian).